The Metatron Mechanism: A Speculative Framework for Halting Cosmic Expansion via Simulations Fourth-Order Runge-Kutta (RK4) Numerical Integration and Python-Based Quantum Computing (Qiskit)

This paper presents a theoretical investigation into a hypothesized cosmological mechanism known as the Metatron mechanism. Within this framework, hypothetical dark particles termed scotons are generated within dark matter structures; these particles subsequently convert into electron-positron pairs, which then annihilate to release energy that counteracts cosmic expansion. By numerically integrating modified Friedmann equations—utilizing both fourth-order Runge-Kutta (RK4) simulations and a quantum computing approach based on parameterized quantum circuits—the author illustrates a plausible mechanism for the universe's transition from an accelerated expansion phase to a state of stagnation. The simulations indicate that cosmic stagnation could occur approximately 0.62 billion years into the universe's evolution under these conditions, accompanied by a novel form of time-zone dispersion—a regionally differentiated time dilation arising from the gravitational potential of the annihilation energy. Furthermore, this paper extends its analysis to examine the role of the Metatron mechanism in resolving the matter-antimatter asymmetry via CP-violating channels within the dark sector, while also identifying potential observational signatures in the gamma-ray spectrum and anomalies in the Cosmic Microwave Background (CMB). This framework offers a thought-experiment-based alternative to standard dark energy models, simultaneously introducing a new paradigm for understanding matter-antimatter conversion, cosmological quantum dynamics, and the stability of the universe's large-scale structures.